Research On Maximizing Crop Planting Returns Based on Genetic Algorithm
DOI:
https://doi.org/10.54097/nx2nj306Keywords:
Genetic Algorithm, Agricultural Planting, Interquartile Range, Prediction Model.Abstract
With the rapid development of agricultural modernization, the traditional planting method relying on experience makes it difficult to effectively cope with market fluctuations and uneven distribution of resources, resulting in the difficulty of maximizing agricultural returns. To solve this problem, some crop data were pre-processed and the extreme values in the data were processed by IQR (Interquartile Range). On this basis, the agricultural planting income maximization model was constructed, and the Genetic Algorithm (GA) was used to optimize the model's prediction. Through genetic operations such as selection, crossover, and mutation, the planting plan was gradually optimized, and the optimal planting planning plan for a rural plot in 2024 was finally obtained. For example, plot A1 with an area of 85 acres of arid land is suitable for growing sorghum, and plot A2 with 55 acres is ideal for growing red beans. The results of this study provide a reference value for the optimization of agricultural planting and are of great significance for improving the efficiency and income of rural resource utilization.
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[1] Wang Jianan, Wang Yuying, He Shulin, et al. Soil Moisture Prediction Model Based on Improved Genetic Algorithm for Optimizing BP Neural Network [J]. Journal of Computer Systems Application, 2022, 31 (02): 273-278.
[2] Ye Yu, Li Min, Wen Yan. Research on Classification and Prediction Algorithm for Agricultural Big Data [J]. Computer and Digital Engineering, 2022, 50 (03): 468-470+475
[3] Neil E, Carrella E, Bailey R. Calibrating multi-constraint ensemble ecosystem models using genetic algorithms and Approximate Bayesian Computation: A case study of rewilding at the Knepp Estate, UK [J]. Ecological Modelling, 2025, 500 110948-110948.
[4] Maionchi O D D, Coimbra S D N, Silva D G J, et al. Predictive model and optimization of micromixers geometry using Gaussian process with uncertainty quantification and genetic algorithm [J]. Fluid Dynamics Research, 2024, 56 (6): 065504-065504.
[5] Bhatia, K. A . Applications of genetic algorithms in agricultural problems - an overview. (Special Issue: Artificial intelligence in agriculture.) [J]. Journal of the Indian Society of Agricultural Statistics, 2013, 67 (1): 13-22.
[6] Lu Fumei, Wen Liuying. Microbial Feature Selection Method Integrating Single-class F-score and Genetic Algorithm [J]. Information Technology, 2024, (11): 125-131.
[7] Li Yunfeng, Yan Sixing, Ran Binbin, et al. Prediction of Lateral Bearing Capacity of Pile Foundation Based on Genetic Algorithm for Improving BP Neural Network [J]. Science and Technology Innovation and Application, 2024, 14 (33): 30-33.
[8] Yang Jia, Ren Changhang. Decision Analysis of Automatic Pricing and Replenishment of Vegetable Commodities from the Perspective of Genetic Algorithm [J]. Modern Business, 2024, (20): 23-26.
[9] Ma Xiaohe. Structural analysis of changes in agricultural income and production cost in China [J]. China Rural Economy, 2011, (05): 4-11+56
[10] Ming Feng, Zeng Anmin, Jing Yifan. GNSS Coordinate Sequence Gross Error Detection Algorithm Based on L1 Norm and IQR Statistics [J]. Journal of Surveying and Mapping Science and Technology, 2016, 33 (02): 127-132
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